Microcell Data Transmission

ABSTRACT

An apparatus includes multiple first reservoirs and multiple second reservoirs joined with a substrate. Selected ones of the multiple first reservoirs include a reducing agent, and first reservoir surfaces of selected ones of the multiple first reservoirs are proximate to a first substrate surface. Selected ones of the multiple second reservoirs include an oxidizing agent, and second reservoir surfaces of selected ones of the multiple second reservoirs are proximate to the first substrate surface.

CROSS REFERENCE TO RELATED APPLICATIONS

This is a continuation in part application of International Application No. PCT/US2015/34057, filed Jun. 3, 2015, which claims benefit of U.S. Provisional Patent Application Ser. Nos. 62/007,295, filed Jun. 3, 2014; 62/012,006, filed Jun. 13, 2014; 62/090,011, filed Dec. 10, 2014; 62/137,987, filed Mar. 25, 2015; 62/138,041, filed Mar. 25, 2015; and 62/153,163, filed Apr. 27, 2015; the content of each of which is incorporated herein by reference in its entirety.

FIELD

Biologic tissues and cells react to electrical stimulus. The present specification relates to microcell data transmission and methods of manufacture and use thereof.

BACKGROUND

It has been shown that biologic tissue, bacteria, viruses, fungi, and other organisms or organic matter may be affected by electrical stimulus. However, monitoring such changes is difficult. Thus, apparatus and techniques for applying electric stimulus with data transmission to organic matter have been developed to address a number of medical issues.

SUMMARY

Aspects disclosed herein include systems, devices, and methods for treating tissues or cells, for example using bioelectric devices that comprise a multi-array matrix of biocompatible microcells and a electrolytic solution, conductive fluid, or cream, for example a skin or wound treatment agent.

Aspects disclosed herein include systems, devices, and methods for data collection and/or data transmission, for example using bioelectric devices that comprise a substrate with one or more sensing elements, multi-array matrix of biocompatible microcells which can generate a low level electric field (LLEF) or low level electric current (LLEC), and wherein a data element is collected from the sensing element and transmitted by a control module to a external device.

Aspects disclosed herein comprise bioelectric devices that comprise a multi-array matrix of biocompatible microcells. Such matrices can include a first array comprising a pattern of microcells, for example formed from a first conductive solution, the solution including a metal species; and a second array comprising a pattern of microcells, for example formed from a second conductive solution, the solution including a metal species capable of defining at least one voltaic cell for spontaneously generating at least one electrical current with the metal species of the first array when said first and second arrays are introduced to an electrolytic solution and said first and second arrays are not in physical contact with each other. Certain aspects utilize an external power source such as AC or DC power or pulsed RF or pulsed current, such as high voltage pulsed current. In one embodiment, the electrical energy is derived from the dissimilar metals creating a battery at each cell/cell interface, whereas those embodiments with an external power source may require conductive electrodes in a spaced apart configuration to predetermine the electric field shape and strength. The external source could provide energy for a longer period than the batteries on the surface.

Other aspects, features, and techniques will be apparent to one skilled in the relevant art in view of the following detailed description of the embodiments.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 depicts a detailed plan view of an embodiment disclosed herein;

FIG. 2 depicts a detailed plan view of a pattern of applied electrical conductors according to one or more embodiments;

FIG. 3 depicts an embodiment using the applied pattern of FIG. 2 according to one or more embodiments;

FIG. 4 depicts a cross-section of FIG. 3 through line 3-3 according to one or more embodiments;

FIG. 5 depicts a detailed plan view of an alternate embodiment disclosed herein which includes fine lines of conductive metal solution connecting electrodes;

FIG. 6 depicts a detailed plan view of another alternate embodiment having a line pattern and dot pattern;

FIG. 7 depicts a detailed plan view of another alternate embodiment having two line patterns;

FIG. 8 depicts a detailed plan view of yet another alternative embodiment having a random distribution of dots;

FIG. 9 depicts a graphical representation of microcell data transmission according to one or more embodiments; and

FIG. 10 depicts a method of microcell data transmission according to one or more embodiments.

DETAILED DESCRIPTION

Embodiments disclosed herein include systems that can provide a low level electric field (LLEF) to a cell, tissue, or organism (thus a “LLEF system”) or, when brought into contact with an electrically conducting material, can provide a low level electric current (LLEC) to a cell, tissue, or organism (thus a “LLEC system”). Thus, in embodiments a LLEC system is a LLEF system that is in contact with an electrically conducting material. In certain embodiments, the electric current or electric field can be modulated, for example, to alter the duration, size, shape, field depth, duration, current, polarity, or voltage of the system. For example, it can be desirable to employ an electric field of greater strength or depth in an area where skin is thicker to achieve optimal treatment. In embodiments the watt-density of the system can be modulated.

“Acne treatment” refers to any method for reducing the appearance of or preventing the occurrence of acne. Acne treatment can be applied to any area where a subject wishes to reduce or prevent the appearance of acne. Acne treatment methods disclosed herein comprise use of LLEFs and/or LLECs.

“Acne treatment agent” as used herein means substances and devices used to reduce or prevent acne. They are generally mixtures of chemical compounds, some being derived from natural sources, many being synthetic. These products are generally liquids or creams or ointments intended to be applied to the human body. Examples of acne treatment agents include, but are not limited to: retinoids such as tretinoin, isotretinoin, motretinide, adapalene, tazarotene, azelaic acid, and retinol; salicylic acid; benzoyl peroxide; resorcinol; sulfur; sulfacetamide; urea; antibiotics such as tetracycline, clindamycin, metronidazole, and erythromycin; anti-inflammatory agents such as corticosteroids (e.g., hydrocortisone), ibuprofen, naproxen, and hetprofen; imidazoles such as ketoconazole and elubiol; and salts and prodrugs thereof. Other examples of acne treatment agents include essential oils, alpha-bisabolol, dipotassium glycyrrhizinate, camphor, β-glucan, allantoin, feverfew, flavonoids such as soy isoflavones, saw palmetto, chelating agents such as EDTA, lipase inhibitors such as silver and copper ions, hydrolyzed vegetable proteins, inorganic ions of chloride, iodide, fluoride, and their nonionic derivatives chlorine, iodine, fluorine, and synthetic phospholipids and natural phospholipids such as ARLASILK™. These products can be electrically conductive. Acne treatment agents can also include skin treatments such as laser therapies. Acne treatment agents can include anti-acne agents.

“Activation gel” as used herein means a composition useful for maintaining a moist environment within and about the skin. Activation gels can be conductive.

“Affixing” as used herein can mean contacting a patient or tissue or cells with a device or system disclosed herein. In embodiments “affixing” can include the use of straps, elastic, etc.

“Applied” or “apply” as used herein refers to contacting a surface with a conductive material, for example printing, painting, or spraying a conductive ink on a surface. Alternatively, “applying” can mean contacting a patient or tissue or organism or cells with a device or system disclosed herein.

“Conductive material” as used herein refers to an object or type of material which permits the flow of electric charges in one or more directions. Conductive materials can include solids such as metals or carbon, or liquids such as conductive metal solutions and conductive gels. Conductive materials can be applied to form at least one matrix. Conductive liquids can dry, cure, or harden after application to form a solid material.

“Cosmetic procedure” as used herein refers to a procedure performed to enhance the appearance of the body. For example, cosmetic procedures include procedures such as dermal filler injection, BOTOX® injection, laser treatments, rhinoplasty, etc.

“Cosmetic product” as used herein means substances used to enhance the appearance of the body. They are generally mixtures of chemical compounds, some being derived from natural sources, many being synthetic. These products are generally liquids or creams or ointments intended to be applied to the human body for cleansing, beautifying, promoting attractiveness, or altering the appearance. These products can be electrically conductive.

“Discontinuous region” as used herein refers to a “void” in a material such as a hole, slot, or the like. The term can mean any void in the material though typically the void is of a regular shape. A void in the material can be entirely within the perimeter of a material or it can extend to the perimeter of a material.

“Dots” as used herein refers to discrete deposits of dissimilar reservoirs that can function as at least one battery cell. The term can refer to a deposit of any suitable size or shape, such as squares, circles, triangles, lines, etc. The term can be used synonymously with, microcells, etc.

“Electrode” refers to similar or dissimilar conductive materials. In embodiments utilizing an external power source the electrodes can comprise similar conductive materials. In embodiments that do not use an external power source, the electrodes can comprise dissimilar conductive materials that can define an anode and a cathode.

“Expandable” as used herein refers to the ability to stretch while retaining structural integrity and not tearing. The term can refer to solid regions as well as discontinuous or void regions; solid regions as well as void regions can stretch or expand.

“Galvanic cell” as used herein refers to an electrochemical cell with a positive cell potential, which can allow chemical energy to be converted into electrical energy. More particularly, a galvanic cell can include a first reservoir serving as an anode and a second, dissimilar reservoir serving as a cathode. Each galvanic cell can store chemical potential energy. When a conductive material is located proximate to a cell such that the material can provide electrical and/or ionic communication between the cell elements the chemical potential energy can be released as electrical energy. Accordingly, each set of adjacent, dissimilar reservoirs can function as a single-cell battery, and the distribution of multiple sets of adjacent, dissimilar reservoirs within the apparatus can function as a field of single-cell batteries, which in the aggregate forms a multiple-cell battery distributed across a surface. In embodiments utilizing an external power source the galvanic cell can comprise electrodes connected to an external power source, for example a battery or other power source. In embodiments that are externally-powered, the electrodes need not comprise dissimilar materials, as the external power source can define the anode and cathode. In certain externally powered embodiments, the power source need not be physically connected to the device.

“Matrix” or “matrices” as used herein refer to a pattern or patterns, such as those formed by electrodes on a surface, such as a fabric or a fiber, or the like. Matrices can be designed to vary the electric field or electric current or microcurrent generated. For example, the strength and shape of the field or current or microcurrent can be altered, or the matrices can be designed to produce an electric field(s) or current or microcurrent of a desired strength or shape.

“Treatment protocol” refers to a method of treating an area of tissue, for example treating a wound to accelerate the healing process.

“Reduction-oxidation reaction” or “redox reaction” as used herein refers to a reaction involving the transfer of one or more electrons from a reducing agent to an oxidizing agent. The term “reducing agent” can be defined in some embodiments as a reactant in a redox reaction, which donates electrons to a reduced species. A “reducing agent” is thereby oxidized in the reaction. The term “oxidizing agent” can be defined in some embodiments as a reactant in a redox reaction, which accepts electrons from the oxidized species. An “oxidizing agent” is thereby reduced in the reaction. In various embodiments a redox reaction produced between a first and second reservoir provides a current between the dissimilar reservoirs. The redox reactions can occur spontaneously when a conductive material is brought in proximity to first and second dissimilar reservoirs such that the conductive material provides a medium for electrical communication and/or ionic communication between the first and second dissimilar reservoirs. In other words, in an embodiment electrical currents can be produced between first and second dissimilar reservoirs without the use of an external battery or other power source (e.g., a direct current (DC) such as a battery or an alternating current (AC) power source such as a typical electric outlet). Accordingly, in various embodiments a system is provided which is “electrically self contained,” and yet the system can be activated to produce electrical currents. The term “electrically self contained” can be defined in some embodiments as being capable of producing electricity (e.g., producing currents) without an external battery or power source. The term “activated” can be defined in some embodiments to refer to the production of electric current through the application of a radio signal of a given frequency or through ultrasound or through electromagnetic induction. In other embodiments, a system can be provided which includes an external battery or power source. For example, an AC power source can be of any wave form, such as a sine wave, a triangular wave, or a square wave. AC power can also be of any frequency such as for example 50 Hz or 60 HZ, or the like. AC power can also be of any voltage, such as for example 120 volts, or 220 volts, or the like. In embodiments an AC power source can be electronically modified, such as for example having the voltage reduced, prior to use. In embodiments the electric current can be pulsed.

“Stretchable” as used herein refers to the ability of embodiments that stretch without losing their structural integrity. That is, embodiments can stretch to accommodate irregular skin surfaces or surfaces wherein one portion of the surface can move relative to another portion.

“Skin rejuvenation” as used herein refers to the prevention or reduction of skin irregularities, including rhytides (wrinkles), discoloration (for example, darker areas), roughness in texture, cellulite, and the like.

LLEC/LLEF Systems and Devices

In embodiments, systems and devices disclosed herein comprise patterned micro-batteries that create a unique field between each dot pair. In embodiments, the unique field is very short, i.e. in the range of the physiologic electric fields. In embodiments, the direction of the electric field produced by devices disclosed herein is similar to physiological conditions.

Embodiments disclosed herein can comprise patterns of microcells. The patterns can be designed to produce an electric field, an electric current, or both over and through tissue such as human skin. In embodiments the patterns of microcells can also be distributed randomly and not in a uniform pattern or configuration. In embodiments the pattern can be designed to produce a specific size, strength, density, shape, or duration of electric field or electric current. In embodiments reservoir or dot size and separation can be altered.

In embodiments devices disclosed herein can apply an electric field, an electric current, or both, wherein the field, current, or both can be of varying size, strength, density, shape, or duration in different areas of the embodiment. In embodiments, by micro-sizing the electrodes or reservoirs, the shapes of the electric field, electric current, or both can be customized, increasing or decreasing very localized watt densities and allowing for the design of “smart patterned electrodes” where the amount of electric field over a tissue can be designed or produced or adjusted based on feedback from the tissue or on an algorithm within sensors operably connected to the embodiment and fed-back to a control module. The electric field, electric current, or both can be strong in one zone and weaker in another. The electric field, electric current, or both can change with time and be modulated based on treatment goals or feedback from the cells, tissue, or patient. The control module can monitor and adjust the size, strength, density, shape, or duration of electric field or electric current based on tissue parameters. For example, embodiments disclosed herein can produce and maintain very localized electrical events. For example, embodiments disclosed herein can produce specific values for the electric field duration, electric field size, electric field shape, field depth, current, polarity, and/or voltage of the device or system.

Devices disclosed herein can generate a localized electric field in a pattern determined by the size, distance between, and physical orientation of the cells or electrodes. Effective depth of the electric field can be predetermined by the orientation and distance between the cells or electrodes.

Embodiments of the LLEC or LLEF systems disclosed herein can comprise electrodes or microcells. Each electrode or microcell can be or include a conductive metal. In embodiments, the electrodes or microcells can comprise any electrically-conductive material, for example, an electrically conductive hydrogel, metals, electrolytes, superconductors, semiconductors, plasmas, and nonmetallic conductors such as graphite and conductive polymers. Electrically conductive metals can include silver, copper, gold, aluminum, molybdenum, zinc, lithium, tungsten, brass, carbon, nickel, iron, palladium, platinum, tin, bronze, carbon steel, lead, titanium, stainless steel, mercury, Fe/Cr alloys, and the like. The electrode can be coated or plated with a different metal such as aluminum, gold, platinum or silver.

In certain embodiments, dot, reservoir, or electrode geometry can comprise circles, polygons, lines, zigzags, ovals, stars, or any suitable variety of shapes. This provides the ability to design/customize surface electric field shapes as well as depth of penetration. In embodiments it can be desirable to employ an electric field of greater strength or depth in an area where skin is thicker, for example to achieve optimal treatment.

Reservoir or dot sizes and concentrations can be of various sizes, as these variations can allow for changes in the properties of the electric field created by embodiments of the invention. Certain embodiments provide an electric field at about 1 Volt and then, under normal tissue loads with resistance of 100 k to 300K ohms, produce a current in the range of 1 to 10 microamperes. The electric field strength can be determined by calculating ½ the separation distance and applying it in the z-axis over the midpoint between the cell. This indicates the theoretical location of the highest strength field line.

In embodiments the substrate can comprise one or more biocompatible electrodes that can be configured to have one or more sensing elements and one or more control module. In further embodiments the device is configured to communicate information between sensing elements, control module, and external device, similar to communication over a network. Information communication as disclosed herein can comprise either wireless or physical connection that allows transmitting information between two or more points. Wireless communication can allow the transfer of information between two or more points that are not connected by an electrical conductor such as a physical circuit or wired connection.

In further embodiments the information transmitted by the substrate sensing elements or control module can be data, commands, signals, or the like. Data can be information that is static or dynamic, such as a single skin temperature reading at a static point or skin temperature reading over a period of time. Data can be obtained from one or more sensing elements on or within substrate of device. A sensing element can be a sensor to obtain information such as media pH, tissue pH, temperature, moisture, electric signals in electrocardiograms (EKG or ECG), neurological signals, conductivity, or the like. In further embodiments, information can be commands or signals such as a command to execute a task or adjust the micro-amperes of the device. In further embodiments information transmitted between sensing elements, control module, and external device can be at least 100 kilobyte per second to 1 gigabyte per second.

A system disclosed herein and placed over tissue such as skin can move relative to the tissue. Reducing the amount of motion between tissue and device can be advantageous to skin treatment. Slotting or placing cuts into the device can result in less friction or tension on the skin. In embodiments, use of an elastic dressing similar to the elasticity of the skin is disclosed.

In embodiments the system comprises a component such as an adhesive or straps to maintain or help maintain its position. The adhesive component can be covered with a protective layer that is removed to expose the adhesive at the time of use. In embodiments the adhesive can comprise, for example, sealants, such as hypoallergenic sealants, gecko sealants, mussel sealants, waterproof sealants such as epoxies, and the like. Straps can include velcro or similar materials to aid in maintaining the position of the device.

In embodiments the positioning component can comprise an elastic film with an elasticity, for example, similar to that of skin, or greater than that of skin, or less than that of skin. In embodiments, the LLEC or LLEF system can comprise a laminate where layers of the laminate can be of varying elasticities. For example, an outer layer may be highly elastic and an inner layer in-elastic or less elastic. The in-elastic layer can be made to stretch by placing stress relieving discontinuous regions or slits through the thickness of the material so there is a mechanical displacement rather than stress that would break the fabric weave before stretching would occur. In embodiments the slits can extend completely through a layer or the system or can be placed where expansion is required. In embodiments of the system the slits do not extend all the way through the system or a portion of the system such as the substrate. In embodiments the discontinuous regions can pass halfway through the long axis of the substrate.

In embodiments the device can be shaped to fit an area of desired use, for example the human face, or around a subject's eyes, or around a subject's forehead, a subject's cheeks, a subject's chin, a subject's back, a subject's chest, or any area where tissue treatment is desired. For example, in embodiments the device can be shaped to fit an area where a subject has visible signs of acne, or where a subject wishes to prevent or reduce the appearance or occurrence of acne. In embodiments the device can be shaped to fit an area where a subject has visible signs of aging, or where a subject wishes to prevent or reduce the appearance or occurrence of wrinkles.

In further embodiments the device can be used for pre-treatment of a surgical site. For example the device can collect and transmit the presence of microorganisms surrounding the surgery site. In addition, pre-treatment of the surgery site can stimulate the healing process by increasing cell migration, ATP production, and angiogenesis.

In further embodiments the device can collect and transmit data during physical activity such as exercise to an external device. In particular, data elements such as heart rate, oxygen saturation, skin temperature, perspiration, or the like can be collected and transmitted to an external device such as a mobile phone, tablet, computer, or wearable device. For example the device can be worn on ones skin during exercise and collect and transmit data elements to a GPS fitness device or mobile device via ANT+ or Bluetooth. In the embodiment the data elements can be collected and transmitted for viewing in real-time or be downloaded after exercise when a external device is available.

In embodiments the electric field can be extended, for example through the use of a hydrogel. In certain embodiments, for example treatment methods, it can be preferable to utilize AC or DC current. For example, embodiments disclosed herein can employ phased array, pulsed, square wave, sinusoidal, or other wave forms, or the like. Certain embodiments utilize a controller to produce and control power production and/or distribution to the device.

Embodiments disclosed herein comprise biocompatible electrodes or reservoirs or dots on a surface or substrate, for example a fabric, a fiber, or the like. In embodiments the surface or substrate can be pliable, for example to better follow the contours of an area to be treated, such as the face or back. In embodiments the surface can comprise a gauze or mesh or plastic. Suitable types of pliable surfaces for use in embodiments disclosed herein can be absorbent or non-absorbent textiles, low-adhesives, vapor permeable films, hydrocolloids, hydrogels, alginates, foams, foam-based materials, cellulose-based materials including Kettenbach fibers, hollow tubes, fibrous materials, such as those impregnated with anhydrous/hygroscopic materials, beads and the like, or any suitable material as known in the art. In embodiments the pliable material can form, for example, a mask, such as that worn on the face, an eye patch, a shirt or a portion thereof, for example an elastic or compression shirt, or a portion thereof, a wrapping, towel, cloth, fabric, or the like. Embodiments can comprise multiple layers. Multi layer embodiments can include, for example, a skin-contacting layer, a hydration layer, and a hydration containment layer.

Embodiments can include coatings on the surface, such as, for example, over or between the electrodes or cells. Such coatings can include, for example, silicone, and electrolytic mixture, hypoallergenic agents, drugs, biologics, stem cells, skin substitutes, cosmetic products, or the like. Drugs suitable for use with embodiments of the invention include analgesics, antibiotics, anti-inflammatories, anti-acne medications, or the like.

In embodiments the material can include a port to access the interior of the material, for example to add fluid, gel, cosmetic products, a hydrating material, an anti-acne agent, or some other material to the dressing. Certain embodiments can comprise a “blister” top that can enclose a material such as, for example, a tissue treatment agent, a skin rejuvenation agent, or the like. In embodiments the blister top can contain a material that is released into or on to the material when the blister is pressed, for example a liquid or cream. For example, embodiments disclosed herein can comprise a blister top containing a skin treatment product, such as an anti-acne agent or medication, or a hydrating material, or the like.

In embodiments the system comprises a component such as elastic to maintain or help maintain its position. In embodiments the system comprises components such as straps to maintain or help maintain its position. In certain embodiments the system or device comprises a strap on either end of the long axis, or a strap linking on end of the long axis to the other. In embodiments that straps can comprise velcro or a similar fastening system. In embodiments the straps can comprise elastic materials. In further embodiments the strap can comprise a conductive material, for example a wire to electrically link the device with other components, such as monitoring equipment or a power source. In embodiments the device can be wirelessly linked to monitoring or data collection equipment, for example linked via Bluetooth to a cell phone that collects data from the device. In certain embodiments the device can comprise data collection technology, such as temperature, pressure, or conductivity data collection technology.

A LLEC or LLEF system disclosed herein can comprise “anchor” regions or “arms” or straps to affix the system securely. The anchor regions or arms can anchor the LLEC or LLEF system. For example, a LLEC or LLEF system can be secured to an area proximal to a joint or irregular skin surface, and anchor regions of the system can extend to areas of minimal stress or movement to securely affix the system. Further, the LLEC system can reduce stress on an area, for example by “countering” the physical stress caused by movement.

In embodiments the LLEC or LLEF system can comprise additional materials to aid in tissue treatment or skin rejuvenation. These additional materials can comprise, for example, tissue treatment agents, skin rejuvenation agents, or both, or the like. These additional materials can comprise cosmetic formulations, for example Estee Lauder Advanced Night Repair, or STRIVECTIN® Tightening Neck Cream, or the like.

Embodiments disclosed herein can comprise a cosmetic product. For example, embodiments can comprise a skin care cream wherein the skin care cream is located between the skin and the electrode surface. Embodiments disclosed herein can comprise a cosmetic procedure. For example, embodiments can be employed before, after, or during a cosmetic procedure, such as before, after, or during a dermal filler injection. Embodiments can comprise use of a device disclosed herein before, after, or during a BOTOX® injection. Embodiments can comprise use of a device disclosed herein before, after, or during a dermabrasion procedure. Embodiments can comprise use of a device disclosed herein before, after, or during a laser resurfacing. Embodiments can comprise use of a device disclosed herein before, after, or during a resurfacing procedure.

In embodiments, methods and devices disclosed herein can be used to reduce the visibility of skin facial wrinkles, reduce atrophy, or increase collagen stimulation. The devices can be used either alone or in conjunction with other components well known in the art, such as subcutaneous fillers, implants, intramuscular injections, and subcutaneous injections, such as dermal fillers or BOTOX® injection. For example, the devices can be used in conjunction with collagen and/or hyaluronic acid injections.

In embodiments, methods for rejuvenating skin comprise the step of topically administering a skin care material on the skin surface or upon the matrix of biocompatible microcells. These skin care materials can comprise, for example, anti-aging formulations such as, for example, Estee Lauder Night Repair; Philosophy Miracle Worker; Clinique Repairware; Lancome Genifique, Renergie, or Bienfait; Elizabeth Arden Prevage; Strivectin TL; Clarins Double Serum; Peter-Thomas Roth Un-Wrinkle; and the like. In embodiments, the skin care material can be an electrically conductive material.

Embodiments can include devices in the form of a gel, such as, for example, a one- or two-component gel that is mixed on use. Embodiments can include devices in the form of a spray, for example, a one- or two-component spray that is mixed on use.

In embodiments, the LLEC or LLEF system can comprise instructions or directions on how to place the system to maximize its performance.

Embodiments can comprise a kit comprising a device disclosed herein and a cosmetic or skin treatment agent. Kits disclosed herein can include directions for use.

LLEC/LLEF Systems and Devices; Methods of Manufacture

In embodiments, dissimilar metals can be used to create an electric field with a desired voltage. In certain embodiments the pattern of reservoirs can control the watt density and shape of the electric field.

In embodiments printing devices can be used to produce LLEC or LLEF systems disclosed herein. For example, inkjet or “3D” printers can be used to produce embodiments. In embodiments “ink” or “paint” can comprise any conductive solution suitable for forming an electrode on a surface, such as a conductive metal solution. In embodiments “printing” or “painted” can comprise any method of applying a conductive material such as a conductive liquid material to a material upon which a matrix is desired, such as a fabric.

In certain embodiments the binders or inks used to produce LLEC or LLEF systems disclosed herein can include, for example, poly cellulose inks, poly acrylic inks, poly urethane inks, silicone inks, and the like. In embodiments the type of ink used can determine the release rate of electrons from the reservoirs. In embodiments various materials can be added to the ink or binder such as, for example, conductive or resistive materials can be added to alter the shape or strength of the electric field. Other materials, such as silicon, can be added to enhance scar reduction. Such materials can also be added to the spaces between reservoirs.

In embodiments, electroceutical fabric embodiments disclosed herein can be woven of at least two types of fibers; fibers comprising sections treated or coated with a substance capable of forming a positive electrode; and fibers comprising sections treated or coated with a substance capable of forming a negative electrode. The fabric can further comprise fibers that do not form an electrode. Long lengths of fibers can be woven together to form fabrics. For example, the fibers can be woven together to form a regular pattern of positive and negative electrodes.

Certain embodiments can utilize a power source to create the electric current, such as a battery or a microbattery. The power source can be any energy source capable of generating a current in the LLEC system and can include, for example, AC power, DC power, radio frequencies (RF) such as pulsed RF, induction, ultrasound, and the like.

Dissimilar metals used to make a LLEC or LLEF system disclosed herein can be silver and zinc, and the electrolytic solution can include sodium chloride in water. In certain embodiments the electrodes are applied onto a non-conductive surface to create a pattern, most preferably an array or multi-array of voltaic cells that do not spontaneously react until they contact an electrolytic solution. Sections of this description use the terms “printing” with “ink,” but it is understood that the patterns may instead be “painted” with “paints.” The use of any suitable means for applying a conductive material is contemplated. In embodiments “ink” or “paint” can comprise any solution suitable for forming an electrode on a surface such as a conductive material including a conductive metal solution. In embodiments “printing” or “painted” can comprise any method of applying a solution to a material upon which a matrix is desired.

A preferred material to use in combination with silver to create the voltaic cells or reservoirs of disclosed embodiments is zinc. Zinc has been well-described for its uses in prevention of infection in such topical antibacterial agents as Bacitracin zinc, a zinc salt of Bacitracin. Zinc is a divalent cation with antibacterial properties of its own.

Turning to the figures, in FIG. 1, the dissimilar first electrode 6 and second electrode 10 are applied onto a desired primary surface 2 of an article 4. In one embodiment a primary surface is a surface of a LLEC or LLEF system that comes into direct contact with an area to be treated such as a skin surface.

In various embodiments the difference of the standard potentials of the electrodes or dots or reservoirs can be in a range from about 0.05 V to approximately about 5.0 V. For example, the standard potential can be about 0.05 V, about 0.06 V, about 0.07 V, about 0.08 V, about 0.09 V, about 0.1 V, about 0.2 V, about 0.3 V, about 0.4 V, about 0.5 V, about 0.6 V, about 0.7 V, about 0.8 V, about 0.9 V, about 1.0 V, about 1.1 V, about 1.2 V, about 1.3 V, about 1.4 V, about 1.5 V, about 1.6 V, about 1.7 V, about 1.8 V, about 1.9 V, about 2.0 V, about 2.1 V, about 2.2 V, about 2.3 V, about 2.4 V, about 2.5 V, about 2.6 V, about 2.7 V, 2.8 V, about 2.9 V, about 3.0 V, about 3.1 V, about 3.2 V, about 3.3 V, about 3.4 V, about 3.5 V, about 3.6 V, about 3.7 V, about 3.8 V, about 3.9 V, about 4.0 V, about 4.1 V, about 4.2 V, about 4.3 V, 4.4 V, 4.5 V, about 4.6 V, about 4.7 V, 4.8 V, about 4.9 V, about 5.0 V, about 5.1 V, about 5.2 V, about 5.3 V, about 5.4 V, about 5.5 V, about 5.6 V, about 5.7 V, about 5.8 V, about 5.9 V, about 6.0 V, or the like.

In embodiments, LLEC systems disclosed herein can produce a low level electric current of between for example about 1 and about 200 micro-amperes, between about 10 and about 190 micro-amperes, between about 20 and about 180 micro-amperes, between about 30 and about 170 micro-amperes, between about 40 and about 160 micro-amperes, between about 50 and about 150 micro-amperes, between about 60 and about 140 micro-amperes, between about 70 and about 130 micro-amperes, between about 80 and about 120 micro-amperes, between about 90 and about 100 micro-amperes, or the like.

In an embodiment, a LLEC system disclosed herein can produce a low level electric current of between for example about 1 and about 10 micro-amperes

In embodiments, LLEC systems disclosed herein can produce a low level micro-current of between for example about 1 and about 400 micro-amperes, between about 20 and about 380 micro-amperes, between about 400 and about 360 micro-amperes, between about 60 and about 340 micro-amperes, between about 80 and about 320 micro-amperes, between about 100 and about 3000 micro-amperes, between about 120 and about 280 micro-amperes, between about 140 and about 260 micro-amperes, between about 160 and about 240 micro-amperes, between about 180 and about 220 micro-amperes, or the like.

In embodiments, LLEC systems disclosed herein can produce a low level micro-current about 10 micro-amperes, about 20 micro-amperes, about 30 micro-amperes, about 40 micro-amperes, about 50 micro-amperes, about 60 micro-amperes, about 70 micro-amperes, about 80 micro-amperes, about 90 micro-amperes, about 100 micro-amperes, about 110 micro-amperes, about 120 micro-amperes, about 130 micro-amperes, about 140 micro-amperes, about 150 micro-amperes, about 160 micro-amperes, about 170 micro-amperes, about 180 micro-amperes, about 190 micro-amperes, about 200 micro-amperes, about 210 micro-amperes, about 220 micro-amperes, about 240 micro-amperes, about 260 micro-amperes, about 280 micro-amperes, about 300 micro-amperes, about 320 micro-amperes, about 340 micro-amperes, about 360 micro-amperes, about 380 micro-amperes, about 400 micro-amperes, or the like.

In embodiments, the disclosed LLEC systems can produce a low level micro-current of not more than 10 micro-amperes, or not more than about 20 micro-amperes, not more than about 30 micro-amperes, not more than about 40 micro-amperes, not more than about 50 micro-amperes, not more than about 60 micro-amperes, not more than about 70 micro-amperes, not more than about 80 micro-amperes, not more than about 90 micro-amperes, not more than about 100 micro-amperes, not more than about 110 micro-amperes, not more than about 120 micro-amperes, not more than about 130 micro-amperes, not more than about 140 micro-amperes, not more than about 150 micro-amperes, not more than about 160 micro-amperes, not more than about 170 micro-amperes, not more than about 180 micro-amperes, not more than about 190 micro-amperes, not more than about 200 micro-amperes, not more than about 210 micro-amperes, not more than about 220 micro-amperes, not more than about 230 micro-amperes, not more than about 240 micro-amperes, not more than about 250 micro-amperes, not more than about 260 micro-amperes, not more than about 270 micro-amperes, not more than about 280 micro-amperes, not more than about 290 micro-amperes, not more than about 300 micro-amperes, not more than about 310 micro-amperes, not more than about 320 micro-amperes, not more than about 340 micro-amperes, not more than about 360 micro-amperes, not more than about 380 micro-amperes, not more than about 400 micro-amperes, not more than about 420 micro-amperes, not more than about 440 micro-amperes, not more than about 460 micro-amperes, not more than about 480 micro-amperes, or the like.

In embodiments, LLEC systems disclosed herein can produce a low level micro-current of not less than 10 micro-amperes, not less than 20 micro-amperes, not less than 30 micro-amperes, not less than 40 micro-amperes, not less than 50 micro-amperes, not less than 60 micro-amperes, not less than 70 micro-amperes, not less than 80 micro-amperes, not less than 90 micro-amperes, not less than 100 micro-amperes, not less than 110 micro-amperes, not less than 120 micro-amperes, not less than 130 micro-amperes, not less than 140 micro-amperes, not less than 150 micro-amperes, not less than 160 micro-amperes, not less than 170 micro-amperes, not less than 180 micro-amperes, not less than 190 micro-amperes, not less than 200 micro-amperes, not less than 210 micro-amperes, not less than 220 micro-amperes, not less than 230 micro-amperes, not less than 240 micro-amperes, not less than 250 micro-amperes, not less than 260 micro-amperes, not less than 270 micro-amperes, not less than 280 micro-amperes, not less than 290 micro-amperes, not less than 300 micro-amperes, not less than 310 micro-amperes, not less than 320 micro-amperes, not less than 330 micro-amperes, not less than 340 micro-amperes, not less than 350 micro-amperes, not less than 360 micro-amperes, not less than 370 micro-amperes, not less than 380 micro-amperes, not less than 390 micro-amperes, not less than 400 micro-amperes, or the like.

The applied electrodes or reservoirs or dots can adhere or bond to the primary surface 2 because a biocompatible binder is mixed, in embodiments into separate mixtures, with each of the dissimilar metals that will create the pattern of voltaic cells, in embodiments. Most inks are simply a carrier, and a binder mixed with pigment. Similarly, conductive metal solutions can be a binder mixed with a conductive element. The resulting conductive metal solutions can be used with an application method such as screen printing to apply the electrodes to the primary surface in predetermined patterns. Once the conductive metal solutions dry and/or cure, the patterns of spaced electrodes can substantially maintain their relative position, even on a flexible material such as that used for a LLEC or LLEF system. To make a limited number of the systems of an embodiment disclosed herein, the conductive metal solutions can be hand applied onto a common adhesive bandage so that there is an array of alternating electrodes that are spaced about a millimeter apart on the primary surface of the bandage. The solution can be allowed to dry before being applied to a surface so that the conductive materials do not mix, which could interrupt the array and cause direct reactions that will release the elements.

In certain embodiments that utilize a poly-cellulose binder, the binder itself can have an beneficial effect such as reducing the local concentration of matrix metallo-proteases through an iontophoretic process that drives the cellulose into the surrounding tissue. This process can be used to electronically drive other components such as drugs into the surrounding tissue.

The binder can include any biocompatible liquid material that can be mixed with a conductive element (preferably metallic crystals of silver or zinc) to create a conductive solution which can be applied as a thin coating to a surface. One suitable binder is a solvent reducible polymer, such as the polyacrylic non-toxic silk-screen ink manufactured by COLORCON® Inc., a division of Berwind Pharmaceutical Services, Inc. (see COLORCON® NO-TOX® product line, part number NT28). In an embodiment the binder is mixed with high purity (at least 99.999%) metallic silver crystals to make the silver conductive solution. The silver crystals, which can be made by grinding silver into a powder, are preferably smaller than 100 microns in size or about as fine as flour. In an embodiment, the size of the crystals is about 325 mesh, which is typically about 40 microns in size or a little smaller. The binder is separately mixed with high purity (at least 99.99%, in an embodiment) metallic zinc powder which has also preferably been sifted through standard 325 mesh screen, to make the zinc conductive solution. For better quality control and more consistent results, most of the crystals used should be larger than 325 mesh and smaller than 200 mesh. For example the crystals used should be between 200 mesh and 325 mesh, or between 210 mesh and 310 mesh, between 220 mesh and 300 mesh, between 230 mesh and 290 mesh, between 240 mesh and 280 mesh, between 250 mesh and 270 mesh, between 255 mesh and 265 mesh, or the like.

Other powders of metal can be used to make other conductive metal solutions in the same way as described in other embodiments.

The size of the metal crystals, the availability of the surface to the conductive fluid and the ratio of metal to binder affects the release rate of the metal from the mixture. When COLORCON® polyacrylic ink is used as the binder, about 10 to 40 percent of the mixture should be metal for a longer term bandage (for example, one that stays on for about 10 days). For example, for a longer term LLEC or LLEF system the percent of the mixture that should be metal can be 8 percent, or 10 percent, 12 percent, 14 percent, 16 percent, 18 percent, 20 percent, 22 percent, 24 percent, 26 percent, 28 percent, 30 percent, 32 percent, 34 percent, 36 percent, 38 percent, 40 percent, 42 percent, 44 percent, 46 percent, 48 percent, 50 percent, or the like.

If the same binder is used, but the percentage of the mixture that is metal is increased to 60 percent or higher, then the release rate will be much faster and a typical system will only be effective for a few days. For example, for a shorter term device, the percent of the mixture that should be metal can be 40 percent, or 42 percent, 44 percent, 46 percent, 48 percent, 50 percent, 52 percent, 54 percent, 56 percent, 58 percent, 60 percent, 62 percent, 64 percent, 66 percent, 68 percent, 70 percent, 72 percent, 74 percent, 76 percent, 78 percent, 80 percent, 82 percent, 84 percent, 86 percent, 88 percent, 90 percent, or the like.

For LLEC or LLEF systems comprising a pliable substrate it can be desirable to decrease the percentage of metal down to, for example, 5 percent or less, or to use a binder that causes the crystals to be more deeply embedded, so that the primary surface will be antimicrobial for a very long period of time and will not wear prematurely. Other binders can dissolve or otherwise break down faster or slower than a polyacrylic ink, so adjustments can be made to achieve the desired rate of spontaneous reactions from the voltaic cells.

To maximize the number of voltaic cells, in various embodiments, a pattern of alternating silver masses or electrodes or reservoirs and zinc masses or electrodes or reservoirs can create an array of electrical currents across the primary surface. A basic pattern, shown in FIG. 1, has each mass of silver equally spaced from four masses of zinc, and has each mass of zinc equally spaced from four masses of silver, according to an embodiment. The first electrode 6 is separated from the second electrode 10 by a spacing 8. The designs of first electrode 6 and second electrode 10 are simply round dots, and in an embodiment, are repeated. Numerous repetitions 12 of the designs result in a pattern. For an exemplary device comprising silver and zinc, each silver design preferably has about twice as much mass as each zinc design, in an embodiment. For the pattern in FIG. 1, the silver designs are most preferably about a millimeter from each of the closest four zinc designs, and vice-versa. The resulting pattern of dissimilar metal masses defines an array of voltaic cells when introduced to an electrolytic solution. Further disclosure relating to methods of producing micro-arrays can be found in U.S. Pat. No. 7,813,806 entitled CURRENT PRODUCING SURFACE FOR TREATING BIOLOGIC TISSUE issued Oct. 12, 2010, which is incorporated by reference in its entirety.

A dot pattern of masses like the alternating round dots of FIG. 1 can be preferred when applying conductive material onto a flexible material, such as those used for a facial or eye mask, or an article of clothing such as a shirt or shorts, as the dots won't significantly affect the flexibility of the material. To maximize the density of electrical current over a primary surface the pattern of FIG. 2 can be used. The first electrode 6 in FIG. 2 is a large hexagonally shaped dot, and the second electrode 10 is a pair of smaller hexagonally shaped dots that are spaced from each other. The spacing 8 that is between the first electrode 6 and the second electrode 10 maintains a relatively consistent distance between adjacent sides of the designs. Numerous repetitions 12 of the designs result in a pattern 14 that can be described as at least one of the first design being surrounded by six hexagonally shaped dots of the second design.

FIGS. 3 and 4 show how the pattern of FIG. 2 can be used to make an embodiment disclosed herein. The pattern shown in detail in FIG. 2 is applied to the primary surface 2 of an embodiment. The back 20 of the printed material is fixed to a substrate layer 22. This layer is adhesively fixed to a pliable layer 16.

FIG. 5 shows an additional feature, which can be added between designs, that can initiate the flow of current in a poor electrolytic solution. A fine line 24 is printed using one of the conductive metal solutions along a current path of each voltaic cell. The fine line will initially have a direct reaction but will be depleted until the distance between the electrodes increases to where maximum voltage is realized. The initial current produced is intended to help control edema so that the LLEC system will be effective. If the electrolytic solution is highly conductive when the system is initially applied the fine line can be quickly depleted and the device will function as though the fine line had never existed.

FIGS. 6 and 7 show alternative patterns that use at least one line design. The first electrode 6 of FIG. 6 is a round dot similar to the first design used in FIG. 1. The second electrode 10 of FIG. 6 is a line. When the designs are repeated, they define a pattern of parallel lines that are separated by numerous spaced dots. FIG. 7 uses only line designs. The first electrode 6 can be thicker or wider than the second electrode 10 if the oxidation-reduction reaction requires more metal from the first conductive element (mixed into the first design's conductive metal solution) than the second conductive element (mixed into the second design's conductive metal solution). The lines can be dashed. Another pattern can be silver grid lines that have zinc masses in the center of each of the cells of the grid. The pattern can be letters printed from alternating conductive materials so that a message can be printed onto the primary surface-perhaps a brand name or identifying information such as patient blood type.

FIG. 8 depicts a detailed plan view of yet another alternative embodiment having a random distribution of dots. In FIG. 8, the dissimilar first electrode 801 and second electrode 802 are on a desired substrate 803 of a device 800, for example a bandage, eye patch, or the like. In one embodiment a device 800 is a material of a LLEC or LLEF system that comes into direct contact with an area to be treated such as a skin. Device 800 can also by configure or shaped into a three dimensional object or material wherein the first electrode 801 and second electrode 802 are randomly distributed within substrate 803 of object or material such as a orthopedic cast, pacemaker, ankle brace, or the like.

Because the spontaneous oxidation-reduction reaction of silver and zinc uses a ratio of approximately two silver to one zinc, the silver design can contain about twice as much mass as the zinc design in an embodiment. At a spacing of about 1 mm between the closest dissimilar metals (closest edge to closest edge) each voltaic cell that contacts a conductive fluid such as a cosmetic cream or anti-acne agent or skin treatment agent can create approximately 1 volt of potential that will penetrate substantially through the dermis and epidermis. Closer spacing of the dots can decrease the resistance, providing less potential, and the current will not penetrate as deeply. If the spacing falls below about one tenth of a millimeter a benefit of the spontaneous reaction is that which is also present with a direct reaction; silver can be electrically driven into the skin. Therefore, spacing between the closest conductive materials can be 0.1 mm, or 0.2 mm, 0.3 mm, 0.4 mm, 0.5 mm, 0.6 mm, 0.7 mm, 0.8 mm, 0.9 mm, 1 mm, 1.1 mm, 1.2 mm, 1.3 mm, 1.4 mm, 1.5 mm, 1.6 mm, 1.7 mm, 1.8 mm, 1.9 mm, 2 mm, 2.1 mm, 2.2 mm, 2.3 mm, 2.4 mm, 2.5 mm, 2.6 mm, 2.7 mm, 2.8 mm, 2.9 mm, 3 mm, 3.1 mm, 3.2 mm, 3.3 mm, 3.4 mm, 3.5 mm, 3.6 mm, 3.7 mm, 3.8 mm, 3.9 mm, 4 mm, 4.1 mm, 4.2 mm, 4.3 mm, 4.4 mm, 4.5 mm, 4.6 mm, 4.7 mm, 4.8 mm, 4.9 mm, 5 mm, 5.1 mm, 5.2 mm, 5.3 mm, 5.4 mm, 5.5 mm, 5.6 mm, 5.7 mm, 5.8 mm, 5.9 mm, 6 mm, or the like.

In certain embodiments the spacing between the closest conductive materials can be not more than 0.1 mm, or not more than 0.2 mm, not more than 0.3 mm, not more than 0.4 mm, not more than 0.5 mm, not more than 0.6 mm, not more than 0.7 mm, not more than 0.8 mm, not more than 0.9 mm, not more than 1 mm, not more than 1.1 mm, not more than 1.2 mm, not more than 1.3 mm, not more than 1.4 mm, not more than 1.5 mm, not more than 1.6 mm, not more than 1.7 mm, not more than 1.8 mm, not more than 1.9 mm, not more than 2 mm, not more than 2.1 mm, not more than 2.2 mm, not more than 2.3 mm, not more than 2.4 mm, not more than 2.5 mm, not more than 2.6 mm, not more than 2.7 mm, not more than 2.8 mm, not more than 2.9 mm, not more than 3 mm, not more than 3.1 mm, not more than 3.2 mm, not more than 3.3 mm, not more than 3.4 mm, not more than 3.5 mm, not more than 3.6 mm, not more than 3.7 mm, not more than 3.8 mm, not more than 3.9 mm, not more than 4 mm, not more than 4.1 mm, not more than 4.2 mm, not more than 4.3 mm, not more than 4.4 mm, not more than 4.5 mm, not more than 4.6 mm, not more than 4.7 mm, not more than 4.8 mm, not more than 4.9 mm, not more than 5 mm, not more than 5.1 mm, not more than 5.2 mm, not more than 5.3 mm, not more than 5.4 mm, not more than 5.5 mm, not more than 5.6 mm, not more than 5.7 mm, not more than 5.8 mm, not more than 5.9 mm, not more than 6 mm, or the like.

In certain embodiments spacing between the closest conductive materials can be not less than 0.1 mm, or not less than 0.2 mm, not less than 0.3 mm, not less than 0.4 mm, not less than 0.5 mm, not less than 0.6 mm, not less than 0.7 mm, not less than 0.8 mm, not less than 0.9 mm, not less than 1 mm, not less than 1.1 mm, not less than 1.2 mm, not less than 1.3 mm, not less than 1.4 mm, not less than 1.5 mm, not less than 1.6 mm, not less than 1.7 mm, not less than 1.8 mm, not less than 1.9 mm, not less than 2 mm, not less than 2.1 mm, not less than 2.2 mm, not less than 2.3 mm, not less than 2.4 mm, not less than 2.5 mm, not less than 2.6 mm, not less than 2.7 mm, not less than 2.8 mm, not less than 2.9 mm, not less than 3 mm, not less than 3.1 mm, not less than 3.2 mm, not less than 3.3 mm, not less than 3.4 mm, not less than 3.5 mm, not less than 3.6 mm, not less than 3.7 mm, not less than 3.8 mm, not less than 3.9 mm, not less than 4 mm, not less than 4.1 mm, not less than 4.2 mm, not less than 4.3 mm, not less than 4.4 mm, not less than 4.5 mm, not less than 4.6 mm, not less than 4.7 mm, not less than 4.8 mm, not less than 4.9 mm, not less than 5 mm, not less than 5.1 mm, not less than 5.2 mm, not less than 5.3 mm, not less than 5.4 mm, not less than 5.5 mm, not less than 5.6 mm, not less than 5.7 mm, not less than 5.8 mm, not less than 5.9 mm, not less than 6 mm, or the like.

Disclosed herein include LLEC or LLEF systems comprising a primary surface of a pliable material wherein the pliable material is adapted to be applied to an area of tissue such as the face of a subject; a first electrode design formed from a first conductive liquid that includes a mixture of a polymer and a first element, the first conductive liquid being applied into a position of contact with the primary surface, the first element including a metal species, and the first electrode design including at least one dot or reservoir, wherein selective ones of the at least one dot or reservoir have approximately a 1.5 mm+/−1 mm mean diameter; a second electrode design formed from a second conductive liquid that includes a mixture of a polymer and a second element, the second element including a different metal species than the first element, the second conductive liquid being printed into a position of contact with the primary surface, and the second electrode design including at least one other dot or reservoir, wherein selective ones of the at least one other dot or reservoir have approximately a 2.5 mm+/−2 mm mean diameter; a spacing on the primary surface that is between the first electrode design and the second electrode design such that the first electrode design does not physically contact the second electrode design, wherein the spacing is approximately 1.5 mm+/−1 mm, and at least one repetition of the first electrode design and the second electrode design, the at least one repetition of the first electrode design being substantially adjacent the second electrode design, wherein the at least one repetition of the first electrode design and the second electrode design, in conjunction with the spacing between the first electrode design and the second electrode design, defines at least one pattern of at least one voltaic cell for spontaneously generating at least one electrical current when introduced to an electrolytic solution. Therefore, electrodes, dots or reservoirs can have a mean diameter of 0.2 mm, 0.3 mm, 0.4 mm, 0.5 mm, 0.6 mm, 0.7 mm, 0.8 mm, 0.9 mm, 1.0 mm, 1.1 mm, 1.2 mm, 1.3 mm, 1.4 mm, 1.5 mm, 1.6 mm, 1.7 mm, 1.8 mm, 1.9 mm, 2.0 mm, 2.1 mm, 2.2 mm, 2.3 mm, 2.4 mm, 2.5 mm, 2.6 mm, 2.7 mm, 2.8 mm, 2.9 mm, 3.0 mm, 3.1 mm, 3.2 mm, 3.3 mm, 3.4 mm, 3.5 mm, 3.6 mm, 3.7 mm, 3.8 mm, 3.9 mm, 4.0 mm, 4.1 mm, 4.2 mm, 4.3 mm, 4.4 mm, 4.5 mm, 4.6 mm, 4.7 mm, 4.8 mm, 4.9 mm, 5.0 mm, or the like.

In further embodiments, electrodes, dots or reservoirs can have a mean diameter of not less than 0.2 mm, or not less than 0.3 mm, not less than 0.4 mm, not less than 0.5 mm, not less than 0.6 mm, not less than 0.7 mm, not less than 0.8 mm, not less than 0.9 mm, not less than 1.0 mm, not less than 1.1 mm, not less than 1.2 mm, not less than 1.3 mm, not less than 1.4 mm, not less than 1.5 mm, not less than 1.6 mm, not less than 1.7 mm, not less than 1.8 mm, not less than 1.9 mm, not less than 2.0 mm, not less than 2.1 mm, not less than 2.2 mm, not less than 2.3 mm, not less than 2.4 mm, not less than 2.5 mm, not less than 2.6 mm, not less than 2.7 mm, not less than 2.8 mm, not less than 2.9 mm, not less than 3.0 mm, not less than 3.1 mm, not less than 3.2 mm, not less than 3.3 mm, not less than 3.4 mm, not less than 3.5 mm, not less than 3.6 mm, not less than 3.7 mm, not less than 3.8 mm, not less than 3.9 mm, not less than 4.0 mm, not less than 4.1 mm, not less than 4.2 mm, not less than 4.3 mm, not less than 4.4 mm, not less than 4.5 mm, not less than 4.6 mm, not less than 4.7 mm, not less than 4.8 mm, not less than 4.9 mm, not less than 5.0 mm, or the like.

In further embodiments, electrodes, dots or reservoirs can have a mean diameter of not more than 0.2 mm, or not more than 0.3 mm, not more than 0.4 mm, not more than 0.5 mm, not more than 0.6 mm, not more than 0.7 mm, not more than 0.8 mm, not more than 0.9 mm, not more than 1.0 mm, not more than 1.1 mm, not more than 1.2 mm, not more than 1.3 mm, not more than 1.4 mm, not more than 1.5 mm, not more than 1.6 mm, not more than 1.7 mm, not more than 1.8 mm, not more than 1.9 mm, not more than 2.0 mm, not more than 2.1 mm, not more than 2.2 mm, not more than 2.3 mm, not more than 2.4 mm, not more than 2.5 mm, not more than 2.6 mm, not more than 2.7 mm, not more than 2.8 mm, not more than 2.9 mm, not more than 3.0 mm, not more than 3.1 mm, not more than 3.2 mm, not more than 3.3 mm, not more than 3.4 mm, not more than 3.5 mm, not more than 3.6 mm, not more than 3.7 mm, not more than 3.8 mm, not more than 3.9 mm, not more than 4.0 mm, not more than 4.1 mm, not more than 4.2 mm, not more than 4.3 mm, not more than 4.4 mm, not more than 4.5 mm, not more than 4.6 mm, not more than 4.7 mm, not more than 4.8 mm, not more than 4.9 mm, not more than 5.0 mm, or the like.

In embodiments, the density of the conductive materials can be, for example, 20 reservoirs per square inch (/in²), 30 reservoirs/in², 40 reservoirs/in², 50 reservoirs/in², 60 reservoirs/in², 70 reservoirs/in², 80 reservoirs/in², r 90 reservoirs/in², 100 reservoirs/in², 150 reservoirs/in², 200 reservoirs/in², 250 reservoirs/in², 300 reservoirs/in², or 350 reservoirs/in², 400 reservoirs/in², 450 reservoirs/in², 500 reservoirs/in², 550 reservoirs/in², 600 reservoirs/in², 650 reservoirs/in², 700 reservoirs/in², 750 reservoirs/in², more, or the like.

In embodiments, the density of the conductive materials can be, for example, more than 20 reservoirs/in², more than 30 reservoirs/in², more than 40 reservoirs/in², more than 50 reservoirs/in², more than 60 reservoirs/in², more than 70 reservoirs/in², more than 80 reservoirs/in², more than 90 reservoirs/in², more than 100 reservoirs/in², more than 150 reservoirs/in², more than 200 reservoirs/in², more than 250 reservoirs/in², more than 300 reservoirs/in², more than 350 reservoirs/in², more than 400 reservoirs/in², more than 450 reservoirs/in², more than 500 reservoirs/in², more than 550 reservoirs/in², more than 600 reservoirs/in², more than 650 reservoirs/in², more than 700 reservoirs/in², more than 750 reservoirs/in², or more, or the like.

The material concentrations or quantities within and/or the relative sizes (e.g., dimensions or surface area) of the first and second reservoirs can be selected deliberately to achieve various characteristics of the systems' behavior. For example, the quantities of material within a first and second reservoir can be selected to provide an apparatus having an operational behavior that depletes at approximately a desired rate and/or that “dies” after an approximate period of time after activation. In an embodiment the one or more first reservoirs and the one or more second reservoirs are configured to sustain one or more currents for an approximate pre-determined period of time, after activation. It is to be understood that the amount of time that currents are sustained can depend on external conditions and factors (e.g., the quantity and type of activation material), and currents can occur intermittently depending on the presence or absence of activation material. In further embodiments the device can be configured to change color over time in relation to the remaining available current. For example the device can be a skin tone color upon initial use and overtime the device can turn to a red color to indicate to a user the availability of current is low. Further disclosure relating to producing reservoirs that are configured to sustain one or more currents for an approximate pre-determined period of time can be found in U.S. Pat. No. 7,904,147 entitled SUBSTANTIALLY PLANAR ARTICLE AND METHODS OF MANUFACTURE issued Mar. 8, 2011, which is incorporated by reference herein in its entirety.

In various embodiments the difference of the standard potentials of the first and second reservoirs can be in a range from 0.05 V to approximately 5.0 V. For example, the standard potential can be 0.05 V, or 0.06 V, 0.07 V, 0.08 V, 0.09 V, 0.1 V, 0.2 V, 0.3 V, 0.4 V, 0.5 V, 0.6 V, 0.7 V, 0.8 V, 0.9 V, 1.0 V, 1.1 V, 1.2 V, 1.3 V, 1.4 V, 1.5 V, 1.6 V, 1.7 V, 1.8 V, 1.9 V, 2.0 V, 2.1 V, 2.2 V, 2.3 V, 2.4 V, 2.5 V, 2.6 V, 2.7 V, 2.8 V, 2.9 V, 3.0 V, 3.1 V, 3.2 V, 3.3 V, 3.4 V, 3.5 V, 3.6 V, 3.7 V, 3.8 V, 3.9 V, 4.0 V, 4.1 V, 4.2 V, 4.3 V, 4.4 V, 4.5 V, 4.6 V, 4.7 V, 4.8 V, 4.9 V, 5.0 V, or the like.

In embodiments the difference of the standard potentials of the first and second reservoirs can be at least 0.05 V, or at least 0.06 V, at least 0.07 V, at least 0.08 V, at least 0.09 V, at least 0.1 V, at least 0.2 V, at least 0.3 V, at least 0.4 V, at least 0.5 V, at least 0.6 V, at least 0.7 V, at least 0.8 V, at least 0.9 V, at least 1.0 V, at least 1.1 V, at least 1.2 V, at least 1.3 V, at least 1.4 V, at least 1.5 V, at least 1.6 V, at least 1.7 V, at least 1.8 V, at least 1.9 V, at least 2.0 V, at least 2.1 V, at least 2.2 V, at least 2.3 V, at least 2.4 V, at least 2.5 V, at least 2.6 V, at least 2.7 V, at least 2.8 V, at least 2.9 V, at least 3.0 V, at least 3.1 V, at least 3.2 V, at least 3.3 V, at least 3.4 V, at least 3.5 V, at least 3.6 V, at least 3.7 V, at least 3.8 V, at least 3.9 V, at least 4.0 V, at least 4.1 V, at least 4.2 V, at least 4.3 V, at least 4.4 V, at least 4.5 V, at least 4.6 V, at least 4.7 V, at least 4.8 V, at least 4.9 V, at least 5.0 V, or the like.

In embodiments, the difference of the standard potentials of the first and second reservoirs can be not more than 0.05 V, or not more than 0.06 V, not more than 0.07 V, not more than 0.08 V, not more than 0.09 V, not more than 0.1 V, not more than 0.2 V, not more than 0.3 V, not more than 0.4 V, not more than 0.5 V, not more than 0.6 V, not more than 0.7 V, not more than 0.8 V, not more than 0.9 V, not more than 1.0 V, not more than 1.1 V, not more than 1.2 V, not more than 1.3 V, not more than 1.4 V, not more than 1.5 V, not more than 1.6 V, not more than 1.7 V, not more than 1.8 V, not more than 1.9 V, not more than 2.0 V, not more than 2.1 V, not more than 2.2 V, not more than 2.3 V, not more than 2.4 V, not more than 2.5 V, not more than 2.6 V, not more than 2.7 V, not more than 2.8 V, not more than 2.9 V, not more than 3.0 V, not more than 3.1 V, not more than 3.2 V, not more than 3.3 V, not more than 3.4 V, not more than 3.5 V, not more than 3.6 V, not more than 3.7 V, not more than 3.8 V, not more than 3.9 V, not more than 4.0 V, not more than 4.1 V, not more than 4.2 V, not more than 4.3 V, not more than 4.4 V, not more than 4.5 V, not more than 4.6 V, not more than 4.7 V, not more than 4.8 V, not more than 4.9 V, not more than 5.0 V, or the like. In embodiments that include very small reservoirs (e.g., on the nanometer scale), the difference of the standard potentials can be substantially less or more. The electrons that pass between the first reservoir and the second reservoir can be generated as a result of the difference of the standard potentials. Further disclosure relating to standard potentials can be found in U.S. Pat. No. 8,224,439 entitled BATTERIES AND METHODS OF MANUFACTURE AND USE issued Jul. 17, 2012, which is incorporated be reference herein in its entirety.

The voltage present at the site of tissue treatment or skin rejuvenation is typically in the range of millivolts but disclosed embodiments can introduce a much higher voltage, for example near 1 volt when using the 1 mm spacing of dissimilar metals already described. The higher voltage is believed to drive the current deeper into the treatment area. In this way the current not only can drive silver and zinc into the treatment if desired for treatment, but the current can also provide a stimulatory current so that the entire surface area can be treated. The higher voltage may also increase antimicrobial effect bacteria and preventing biofilms. The electric field can also have beneficial effects on cell migration, ATP production, and angiogenesis.

FIG. 9 depicts a graphical representation of microcell data transmission according to one or more embodiments. In FIG. 9, device 900 comprises a substrate 903 including one or more sensing element 904, one or more biocompatible electrodes configured to generate at least one of LLEF or LLEC. Biocompatible electrodes can comprise dissimilar first electrode 901 and second electrode 902 on a desired substrate 903 of a device 900. Dissimilar first electrode 901 and second electrode 902 can also be within a three dimensional object or material.

Substrate 903 can comprise one or more sensing elements 904. Sensing element 904 can comprise a sensor to obtain information such as media pH, tissue pH, temperature, moisture, electric signals in electrocardiograms (EKG or ECG), neurological signals, or the like. Sensing element 904 of substrate 903 can sense a data element. A data element can comprise a biological factor, a chemical factor, a physiological factor, or a combination thereof at the desired tissue treatment site. For example a biological factor can comprise the presence of an antibody, type of antibody, microbial growth, or the like. A chemical factor can comprise pH, sodium concentration is sweat, or the like. A physiological factor can comprise temperature, moisture, or the like. In further embodiments the device with integrated LLEF or LLEC can increase the ability and/or efficiency of collecting and transmitting data. For example, embodiments disclosed herein can increase skin permeability, therefore increase the ability and/or efficiency of collecting and transmitting biological factors, chemical factors, physiological factors, or the like.

Data element obtained by the sensing element can then be transmitted or relayed 905 from the substrate 903 to the control module 908 of the device 900. In further embodiments the data element from the sensing element 904 is then transmitted between discontinuous regions 913 where the data element is then received 907 by a control module 908 of the device 900. In embodiments the discontinuous regions 913 can comprise the void space between dissimilar first electrode 901 and second electrode 902.

Control module 908 can comprise a receiver element and a transmitter element. A receiver element of the control module 908 can be configured to receive 907 data, information, commands, signals, or a combination thereof. Additionally, a control module 908 comprises a transmitter element configured to transmit (909 or 911) data, information, commands, signals, or a combination thereof. In further embodiments control module 908 can transmit 909 data to a storage/memory device 910. In further embodiments the control module 908 can be configured to include storage/memory device 910. In further embodiments the storage/memory device 910 can be separate from control module 908 wherein data can be transmitted 909 between the control module 908 and storage/memory device 910 as desired. In further embodiments the control module 908 can be configured to have a processing element wherein the control module can determine to transmit 909 data to and from storage/memory device 910 or an external device 912. In further embodiments the processing element can comprise a CPU wherein the data element can be internally processed or interpreted against a database value or algorithm.

External device 912 can comprise a mobile device, computer, tablet, satellite, or the like. In certain embodiments an external device 912 can comprise an external device 912 physically connected to the control module 908 of device 900 such as a USB or network cable. In certain embodiments an external device 912 can be wirelessly linked with the control module of the disclosed device. Wirelessly linking can comprise wireless communication that allows the transfer of information between two or more points that are not connected by an electrical conductor such as a physical circuit or wired connection. In further embodiments wireless communication can comprise Bluetooth, Wi-Fi, near field communication, ANT+, mobile network, wide area network (WAN), local area network (LAN), or the like. In an embodiment control module 908 transmits 911 data element to external device 912. External device 912 receives data element and interprets the data element against the desired treatment plan or factors to determine tissue treatment effectiveness. Factors to determine tissue treatment effectiveness can comprise biological factors, chemical factors, physiological factors, or a combination of the like. External device 912 can relay conclusion of tissue treatment effectiveness to a user interface (UI) for viewing where an adjustment to the tissue treatment can be made. Relaying conclusion can comprise of transmitting conclusion data to a storage device or memory component of the external device for further use or analysis. In further embodiments relaying information can also comprise external device 912 making an adjustment to tissue treatment and transmitting 911 the change signal to control module 908. Control module 908 can then transmit change signal for processing. Adjusting tissue treatment can comprise adjusting the LLEF or LLEC based on tissue treatment effectiveness and applying a new LLEF or LLEC comprising a different micro-ampere. In particular, adjusting the LLEF and LLEC based on tissue treatment effectiveness can include a manual change such as a physician prescribing a new LLEF or LLEC micro-amperes for treatment or an automatic change by the external device 912 transmitting 911 the new LLEF or LLEC micro-amperes to the control module 908 to modify the treatment effectiveness as desired.

FIG. 10 depicts a method of microcell data transmission 1000 according to one or more embodiments. In one embodiment a method for data transmission 1000 comprises applying a low level electric field (LLEF) or low level electric current (LLEC) 1005 of between 1 and 200 micro-amperes to a area where tissue treatment is desired, sensing at least one data element in tissue 1006, transmitting the data element 1007 to a receiving element, receiving the data element at control module wherein the data element is stored in memory 1008, transmitting the stored data element from the control module to a external device 1009 wherein the external device interprets the data element to determine tissue treatment effectiveness, and adjusting LLEF or LLEC 1010 based on tissue treatment effectiveness.

In further embodiments applying 1005 comprises affixing a LLEF or LLEC system comprising a pliable substrate configured with one or more sensing element comprising on its surface a multi-array matrix of biocompatible microcells. In further embodiments sensing at least one data element 1006 can comprise is a biological factor such as the presence or type of antibody, a chemical factor such as pH level, a physiological factor such as temperature or moisture, or a combination thereof.

In further embodiments the device with integrated LLEF or LLEC can increase the ability and/or efficiency of collecting and transmitting data. For example, embodiments disclosed herein can increase skin permeability, therefore increase the ability and/or efficiency of collecting and transmitting biological factors, chemical factors, physiological factors, or the like.

In further embodiments transmitting the data element to control module comprises transmitting a signal from the sensing element between a plurality of biocompatible electrodes. In certain embodiments transmitting between a plurality of biocompatible electrodes comprises transmitting a signal from the sensing element over discontinuous regions of the substrate between dissimilar electrodes of the device.

As shown and discussed in FIG. 9. The control module can receive 1008 data element and transmit data element to be stored in memory. In further embodiment storing data element can comprise of data element being directly stored within control module or a storage/memory element separate from the control module. As data element is stored in memory, control module can also transmit stored data element to an external device 1009 for processing and interpretation as shown in FIG. 9. Finally, external device can provide output of interpreted data element to determine the tissue treatment effectiveness. As soon as the tissue treatment effectiveness is determined an adjustment 1010 can be made to the LLEF or LLEC as desired to aid in more efficient treatment of tissue. Adjustment 1010 can comprise manipulating or modifying the micro-amperes of the LLEF and LLEC system. In particular, adjusting the LLEF and LLEC based on tissue treatment effectiveness can comprise a manual change such as a physician prescribing a new LLEF or LLEC micro-amperes for treatment or an automatic change by the external device transmitting the change signal including a new LLEF or LLEC micro-amperes to the control module to modify the treatment effectiveness as desired.

While various embodiments have been shown and described, it will be realized that alterations and modifications can be made thereto without departing from the scope of the following claims. It is expected that other methods of applying the conductive material can be substituted as appropriate. Also, there are numerous shapes, sizes and patterns of voltaic cells that have not been described but it is expected that this disclosure will enable those skilled in the art to incorporate their own designs which will then be applied to a surface to create voltaic cells which will become active when brought into contact with an electrolytic solution.

Certain embodiments include LLEC or LLEF systems comprising embodiments designed to be used on irregular, non-planar, or “stretching” surfaces. Embodiments disclosed herein can be used with numerous irregular surfaces of the body, including the face, the shoulder, the elbow, the wrist, the finger joints, the hip, the knee, the ankle, the toe joints, etc. Additional embodiments disclosed herein can be used in areas where tissue is prone to movement, for example the eyelid, the ear, the lips, the nose, the shoulders, the back, etc.

In certain embodiments, the substrate can be shaped to fit a particular region of the body. Embodiments can also include means for securing the mask to the user's head. In an embodiment the portion of the mask or substrate that is to contact the skin comprises a multi-array matrix of biocompatible microcells. In certain embodiments a fluid or cream such as a conductive fluid or cream can be applied between the multi-array matrix of biocompatible microcells and the skin.

Embodiments can comprise a moisture-sensitive component that changes color when the device is activated and producing an electric current.

Various apparatus embodiments which can be referred to as “medical batteries” are described herein. Further disclosure relating to this technology can be found in U.S. Pat. No. 7,672,719 entitled BATTERIES AND METHODS OF MANUFACTURE AND USE issued Mar. 2, 2010, which is incorporated herein by reference in its entirety.

Certain embodiments disclosed herein include a method of manufacturing a substantially planar LLEC or LLEF system, the method comprising joining with a substrate multiple first reservoirs wherein selected ones of the multiple first reservoirs include a reducing agent, and wherein first reservoir surfaces of selected ones of the multiple first reservoirs are proximate to a first substrate surface; and joining with the substrate multiple second reservoirs wherein selected ones of the multiple second reservoirs include an oxidizing agent, and wherein second reservoir surfaces of selected ones of the multiple second reservoirs are proximate to the first substrate surface, wherein joining the multiple first reservoirs and joining the multiple second reservoirs comprises joining using tattooing. In embodiments the substrate can comprise gauzes comprising dots or electrodes.

Further embodiments can include a method of manufacturing a LLEC or LLEF system, the method comprising joining with a substrate multiple first reservoirs wherein selected ones of the multiple first reservoirs include a reducing agent, and wherein first reservoir surfaces of selected ones of the multiple first reservoirs are proximate to a first substrate surface; and joining with the substrate multiple second reservoirs wherein selected ones of the multiple second reservoirs include an oxidizing agent, and wherein second reservoir surfaces of selected ones of the multiple second reservoirs are proximate to the first substrate surface, wherein joining the multiple first reservoirs and joining the multiple second reservoirs comprises: combining the multiple first reservoirs, the multiple second reservoirs, and multiple parallel insulators to produce a pattern repeat arranged in a first direction across a plane, the pattern repeat including a sequence of a first one of the parallel insulators, one of the multiple first reservoirs, a second one of the parallel insulators, and one of the multiple second reservoirs; and weaving multiple transverse insulators through the first parallel insulator, the one first reservoir, the second parallel insulator, and the one second reservoir in a second direction across the plane to produce a woven apparatus.

Embodiments disclosed herein include LLEC and LLEF systems that can produce an electrical stimulus and/or can electromotivate, electroconduct, electroinduct, electrotransport, and/or electrophorese one or more therapeutic materials in areas of target tissue (e.g., iontophoresis), and/or can cause one or more biologic or other materials in proximity to, on or within target tissue to be rejuvenated. Further disclosure relating to materials that can produce an electrical stimulus can be found in U.S. Pat. No. 7,662,176 entitled FOOTWEAR APPARATUS AND METHODS OF MANUFACTURE AND USE issued Feb. 16, 2010, which is incorporated herein by reference in its entirety.

Embodiments disclosed herein include a multilayer fabric, for example a layer that can produce an LLEC/LLEF as described herein, a hydration layer, and a waterproof layer.

LLEC/LLEF Systems and Devices; Methods of Use

In embodiments, methods and devices disclosed herein can be used for to treat tissue or skin conditions. Examples of such treatments include the treatment of acne, for example reducing or preventing the appearance of acne. Embodiments disclosed herein can comprise an acne treatment agent. For example, embodiments can comprise a tissue treatment agent wherein the agent is located between the skin and the electrode surface. Examples of such treatments also include the treatment of dark spots or patches on the skin, or the treatment of wrinkles. Embodiments disclosed herein can comprise a skin treatment agent. For example, embodiments can comprise a skin treatment agent wherein the agent is located between the skin and the electrode surface.

Embodiments disclosed herein relating to treatment of tissue can also comprise selecting a patient or tissue in need of, or that could benefit by, treatment of tissue such as acne or skin rejuvenation.

Methods disclosed herein can include applying a disclosed embodiment to an area to be treated. Embodiments can include selecting or identifying a patient in need of tissue treatment such as acne or skin rejuvenation. In embodiments, methods disclosed herein can include application of an acne treatment agent to an area to be treated. In certain embodiments, disclosed methods include application of an acne treating agent to a device disclosed herein.

In embodiments, methods and devices disclosed herein can be used to reduce the visibility of acne. In embodiments, methods and devices disclosed herein can be used to reduce the signs of skin aging. The devices can be used either alone or in conjunction with other components well known in the art, such as acne treatment agents or skin rejuvenation agents.

In embodiments, disclosed methods include application to the treatment area or the device an anti-aging or anti-acne and/or anti-rosacea active agent. Examples of anti-acne and anti-rosacea agents include, but are not limited to: retinoids such as tretinoin, isotretinoin, motretinide, adapalene, tazarotene, azelaic acid, and retinol; salicylic acid; benzoyl peroxide; resorcinol; sulfur; sulfacetamide; urea; antibiotics such as tetracycline, clindamycin, metronidazole, and erythromycin; anti-inflammatory agents such as corticosteroids (e.g., hydrocortisone), ibuprofen, naproxen, and hetprofen; and imidazoles such as ketoconazole and elubiol; and salts and prodrugs thereof. Other examples of anti-acne active agents include essential oils, alpha-bisabolol, dipotassium glycyrrhizinate, camphor, β-glucan, allantoin, feverfew, flavonoids such as soy isoflavones, saw palmetto, chelating agents such as EDTA, lipase inhibitors such as silver and copper ions, hydrolyzed vegetable proteins, inorganic ions of chloride, iodide, fluoride, and their nonionic derivatives chlorine, iodine, fluorine, and synthetic phospholipids and natural phospholipids such as ARLASILK™.

In embodiments, disclosed methods include application to the treatment area of a cosmetic product, for example one that contains an anti-aging agent. Examples of suitable anti-aging agents include, but are not limited to: inorganic sunscreens such as titanium dioxide and zinc oxide; organic sunscreens such as octyl-methoxy cinnamates; retinoids; dimethylaminoathanol (DMAE), copper containing peptides, vitamins such as vitamin E, vitamin A, vitamin C, and vitamin B and vitamin salts or derivatives such as ascorbic acid di-glucoside and vitamin E acetate or palmitate; alpha hydroxy acids and their precursors such as glycolic acid, citric acid, lactic acid, malic acid, mandelic acid, ascorbic acid, alpha-hydroxybutyric acid, alpha-hydroxyisobutyric acid, alpha-hydroxyisocaproic acid, atrrolactic acid, alpha-hydroxyisovaleric acid, ethyl pyruvate, galacturonic acid, glucoheptonic acid, glucoheptono 1,4-lactone, gluconic acid, gluconolactone, glucuronic acid, glucuronolactone, isopropyl pyruvate, methyl pyruvate, mucic acid, pyruvic acid, saccharic acid, saccaric acid 1,4-lactone, tartaric acid, and tartronic acid; beta hydroxy acids such as beta-hydroxybutyric acid, beta-phenyl-lactic acid, and beta-phenylpyruvic acid; tetrahydroxypropyl ethylene-diamine, N,N,N′,N′-Tetrakis(2-hydroxypropyl)ethylenediamine (THPED); and botanical extracts such as green tea, soy, milk thistle, algae, aloe, angelica, bitter orange, coffee, goldthread, grapefruit, hoellen, honeysuckle, Job's tears, lithospermum, mulberry, peony, puerarua, nice, and safflower; and salts and prodrugs thereof

In embodiments, the anti-acne agent or anti-aging agent or skin rejuvenation agent contains a depigmentation agent. Examples of suitable depigmentation agents include, but are not limited to: soy extract; soy isoflavones; retinoids such as retinol; kojic acid; kojic dipalmitate; hydroquinone; arbutin; transexamic acid; vitamins such as niacin and vitamin C; azelaic acid; linolenic acid and linoleic acid; placertia; licorice; and extracts such as chamomile and green tea; and salts and prodrugs thereof.

In an exemplary embodiment, a method disclosed herein comprises applying a conductive tissue treatment agent to an area where treatment is desired, then applying over the agent a bioelectric device that comprises a multi-array matrix of biocompatible microcells.

In an exemplary embodiment, a method disclosed herein comprises applying a conductive skin rejuvenation agent to an area where treatment is desired, then applying over the agent a bioelectric device that comprises a multi-array matrix of biocompatible microcells.

EXAMPLES

The following non-limiting examples are provided for illustrative purposes only in order to facilitate a more complete understanding of representative embodiments. These examples should not be construed to limit any of the embodiments described in the present specification.

Example 1 Cell Migration Assay

The in vitro scratch assay is an easy, low-cost and well-developed method to measure cell migration in vitro. The basic steps involve creating a “scratch” in a cell monolayer, capturing images at the beginning and at regular intervals during cell migration to close the scratch, and comparing the images to quantify the migration rate of the cells. Compared to other methods, the in vitro scratch assay is particularly suitable for studies on the effects of cell-matrix and cell-cell interactions on cell migration, mimic cell migration during wound healing in vivo and are compatible with imaging of live cells during migration to monitor intracellular events if desired. In addition to monitoring migration of homogenous cell populations, this method has also been adopted to measure migration of individual cells in the leading edge of the scratch.

Human keratinocytes were plated under plated under placebo or a LLEC system (labeled “PROCELLERA®”). Cells were also plated under silver-only or zinc-only dressings. After 24 hours, the scratch assay was performed. Cells plated under the PROCELLERA® device displayed increased migration into the “scratched” area as compared to any of the zinc, silver, or placebo dressings. After 9 hours, the cells plated under the PROCELLERA® device had almost “closed” the scratch. This demonstrates the importance of electrical activity to cell migration and infiltration.

In addition to the scratch test, genetic expression was tested. Increased insulin growth factor (IGF)-1 R phosphorylation was demonstrated by the cells plated under the PROCELLERA® device as compared to cells plated under insulin growth factor alone.

Integrin accumulation also affects cell migration. An increase in integrin accumulation was achieved with the LLEC system. Integrin is necessary for cell migration, and is found on the leading edge of migrating cell.

Thus, the tested LLEC system enhanced cellular migration and IGF-1 R/integrin involvement. This involvement demonstrates the effect that the LLEC system had upon cell receptors involved with the wound healing process.

Example 2 Wound Care Study

The medical histories of patients who received “standard-of-care” wound treatment (“SOC”; n=20), or treatment with a LLEC device as disclosed herein (n=18), were reviewed. The wound care device used in the present study consisted of a discrete matrix of silver and zinc dots. A sustained voltage of approximately 0.8 V was generated between the dots. The electric field generated at the device surface was measured to be 0.2-1.0 V, 10-50 μA.

Wounds were assessed until closed or healed. The number of days to wound closure and the rate of wound volume reduction were compared. Patients treated with LLEC received one application of the device each week, or more frequently in the presence of excessive wound exudate, in conjunction with appropriate wound care management. The LLEC was kept moist by saturating with normal saline or conductive hydrogel. Adjunctive therapies (such as negative pressure wound therapy [NPWT], etc.) were administered with SOC or with the use of LLEC unless contraindicated. The SOC group received the standard of care appropriate to the wound, for example antimicrobial dressings, barrier creams, alginates, silver dressings, absorptive foam dressings, hydrogel, enzymatic debridement ointment, NPWT, etc. Etiology-specific care was administered on a case-by-case basis. Dressings were applied at weekly intervals or more. The SOC and LLEC groups did not differ significantly in gender, age, wound types or the length, width, and area of their wounds.

Wound dimensions were recorded at the beginning of the treatment, as well as interim and final patient visits. Wound dimensions, including length (L), width (W) and depth (D) were measured, with depth measured at the deepest point. Wound closure progression was also documented through digital photography. Determining the area of the wound was performed using the length and width measurements of the wound surface area.

Closure was defined as 100% epithelialization with visible effacement of the wound. Wounds were assessed 1 week post-closure to ensure continued progress toward healing during its maturation and remodeling phase.

Wound types included in this study were diverse in etiology and dimensions, thus the time to heal for wounds was distributed over a wide range (9-124 days for SOC, and 3-44 days for the LLEC group). Additionally, the patients often had multiple co-morbidities, comprising diabetes, renal disease, and hypertension. The average number of days to wound closure was 36.25 (SD=28.89) for the SOC group and 19.78 (SD=14.45) for the LLEC group, p=0.036. On average, the wounds in the LLEC treatment group attained closure 45.43% earlier than those in the SOC group.

Based on the volume calculated, some wounds improved persistently while others first increased in size before improving. The SOC and the LLEC groups were compared to each other in terms of the number of instances when the dimensions of the patient wounds increased (i.e., wound treatment outcome degraded). In the SOC group, 10 wounds (50% for n=20) became larger during at least one measurement interval, whereas 3 wounds (16.7% for n=18) became larger in the LLEC group (p=0.018). Overall, wounds in both groups responded positively. Response to treatment was observed to be slower during the initial phase, but was observed to improve as time progressed.

The LLEC wound treatment group demonstrated on average a 45.4% faster closure rate as compared to the SOC group. Wounds receiving SOC were more likely to follow a “waxing-and-waning” progression in wound closure compared to wounds in the LLEC treatment group.

Compared to localized SOC treatments for wounds, the LLEC (1) reduces wound closure time, (2) has a steeper wound closure trajectory, and (3) has a more robust wound healing trend with fewer incidence of increased wound dimensions during the course of healing.

Example 3 LLEC Influence on Human Keratinocyte Migration

An LLEC-generated electrical field was mapped, leading to the observation that LLEC generates hydrogen peroxide, known to drive redox signaling. LLEC-induced phosphorylation of redox-sensitive IGF-1 R was directly implicated in cell migration. The LLEC also increased keratinocyte mitochondrial membrane potential.

The LLEC was made of polyester printed with dissimilar elemental metals. It comprises alternating circular regions of silver and zinc dots, along with a proprietary, biocompatible binder added to lock the electrodes to the surface of a flexible substrate in a pattern of discrete reservoirs. When the LLEC contacts an aqueous solution, the silver positive electrode (cathode) is reduced while the zinc negative electrode (anode) is oxidized. The LLEC used herein consisted of metals placed in proximity of about 1 mm to each other thus forming a redox couple and generating an ideal potential on the order of 1 Volt. The calculated values of the electric field from the LLEC were consistent with the magnitudes that are typically applied (1-10 V/cm) in classical electrotaxis experiments, suggesting that cell migration observed with the bioelectric dressing is likely due to electrotaxis.

Measurement of the potential difference between adjacent zinc and silver dots when the LLEC is in contact with de-ionized water yielded a value of about 0.2 Volts. Though the potential difference between zinc and silver dots can be measured, non-intrusive measurement of the electric field arising from contact between the LLEC and liquid medium was difficult. Keratinocyte migration was accelerated by exposure to an Ag/Zn LLEC. Replacing the Ag/Zn redox couple with Ag or Zn alone did not reproduce the effect of keratinocyte acceleration.

Exposing keratinocytes to an LLEC for 24 h significantly increased green fluorescence in the dichlorofluorescein (DCF) assay indicating generation of reactive oxygen species under the effect of the LLEC. To determine whether H₂O₂ is generated specifically, keratinocytes were cultured with a LLEC or placebo for 24 h and then loaded with PF6-AM (Peroxyfluor-6 acetoxymethyl ester; an indicator of endogenous H₂O₂). Greater intracellular fluorescence was observed in the LLEC keratinocytes compared to the cells grown with placebo. Over-expression of catalase (an enzyme that breaks down H₂O₂) attenuated the increased migration triggered by the LLEC. Treating keratinocytes with N-Acetyl Cysteine (which blocks oxidant-induced signaling) also failed to reproduce the increased migration observed with LLEC. Thus, H₂O₂ signaling mediated the increase of keratinocyte migration under the effect of the electrical stimulus.

External electrical stimulus can up-regulate the TCA (tricarboxylic acid) cycle. The stimulated TCA cycle is then expected to generate more NADH and FADH₂ to enter into the electron transport chain and elevate the mitochondrial membrane potential (Am). Fluorescent dyes JC-1 and TMRM were used to measure mitochondrial membrane potential. JC-1 is a lipophilic dye which produces a red fluorescence with high Am and green fluorescence when Am is low. TMRM produces a red fluorescence proportional to Am. Treatment of keratinocytes with LLEC for 24 h demonstrated significantly high red fluorescence with both JC-1 and TMRM, indicating an increase in mitochondrial membrane potential and energized mitochondria under the effect of the LLEC. As a potential consequence of a stimulated TCA cycle, available pyruvate (the primary substrate for the TCA cycle) is depleted resulting in an enhanced rate of glycolysis. This can lead to an increase in glucose uptake in order to push the glycolytic pathway forward. The rate of glucose uptake in HaCaT cells treated with LLEC was examined next. More than two fold enhancement of basal glucose uptake was observed after treatment with LLEC for 24 h as compared to placebo control.

Keratinocyte migration is known to involve phosphorylation of a number of receptor tyrosine kinases (RTKs). To determine which RTKs are activated as a result of LLEC, scratch assay was performed on keratinocytes treated with LLEC or placebo for 24 h. Samples were collected after 3 h and an antibody array that allows simultaneous assessment of the phosphorylation status of 42 RTKs was used to quantify RTK phosphorylation. It was determined that LLEC significantly induces IGF-1 R phosphorylation. Sandwich ELISA using an antibody against phospho-IGF-1 R and total IGF-1 R verified this determination. As observed with the RTK array screening, potent induction in phosphorylation of IGF-1 R was observed 3 h post scratch under the influence of LLEC. IGF-1 R inhibitor attenuated the increased keratinocyte migration observed with LLEC treatment.

MBB (monobromobimane) alkylates thiol groups, displacing the bromine and adding a fluoresce nt tag (lamda emission=478 nm). MCB (monochlorobimane) reacts with only low molecular weight thiols such as glutathione. Fluorescence emission from UV laser-excited keratinocytes loaded with either MBB or MCB was determined for 30 min. Mean fluorescence collected from 10,000 cells showed a significant shift of MBB fluorescence emission from cells. No significant change in MCB fluorescence was observed, indicating a change in total protein thiol but not glutathione. HaCaT cells were treated with LLEC for 24 h followed by a scratch assay. Integrin expression was observed by immuno-cytochemistry at different time points. Higher integrin expression was observed 6 h post scratch at the migrating edge.

Consistent with evidence that cell migration requires H₂O₂ sensing, we determined that by blocking H₂O₂ signaling by decomposition of H₂O₂ by catalase or ROS scavenger, N-acetyl cysteine, the increase in LLEC-driven cell migration is prevented. The observation that the LLEC increases H₂O₂ production is significant because in addition to cell migration, hydrogen peroxide generated in the wound margin tissue is required to recruit neutrophils and other leukocytes to the wound, regulates monocyte function, and VEGF signaling pathway and tissue vascularization. Therefore, external electrical stimulation can be used as an effective strategy to deliver low levels of hydrogen peroxide over time to mimic the environment of the healing wound and thus should help improve wound outcomes. Another phenomenon observed during re-epithelialization is increased expression of the integrin subunit alpha-v. There is evidence that integrin, a major extracellular matrix receptor, polarizes in response to applied ES and thus controls directional cell migration. It may be noted that there are a number of integrin subunits, however we chose integrin aV because of evidence of association of alpha-v integrin with IGF-1 R, modulation of IGF-1 receptor signaling, and of driving keratinocyte locomotion. Additionally, integrin alpha v has been reported to contain vicinal thiols that provide site for redox activation of function of these integrins and therefore the increase in protein thiols that we observe under the effect of ES may be the driving force behind increased integrin mediated cell migration. Other possible integrins which may be playing a role in LLEC-induced IGF-1 R mediated keratinocyte migration are a5 integrin and a6 integrin.

Materials and Methods

Cell culture—Immortalized HaCaT human keratinocytes were grown in Dulbecco's low-glucose modified Eagle's medium (Life Technologies, Gaithersburg, Md., U.S.A.) supplemented with 10% fetal bovine serum, 100 U/ml penicillin, and 100 μg/ml streptomycin. The cells were maintained in a standard culture incubator with humidified air containing 5% C02 at 37° C.

Scratch assay—A cell migration assay was performed using culture inserts (IBIDI®, Verona, Wis.) according to the manufacturer's instructions. Cell migration was measured using time-lapse phase-contrast microscopy following withdrawal of the insert. Images were analyzed using the AxioVision Rel 4.8 software.

N-Acetyl Cysteine Treatment—Cells were pretreated with 5 mM of the thiol antioxidant N-acetylcysteine (Sigma) for 1 h before start of the scratch assay.

IGF-1 R inhibition—When applicable, cells were preincubated with 50 nM IGF-1 R inhibitor, picropodophyllin (Calbiochem, Mass.) just prior to the Scratch Assay.

Cellular H₂O₂ Analysis—To determine intracellular H₂O₂ levels, HaCaT cells were incubated with 5 pM PF6-AM in PBS for 20 min at room temperature. After loading, cells were washed twice to remove excess dye and visualized using a Zeiss Axiovert 200M microscope.

Catalase gene delivery—HaCaT cells were transfected with 2.3×107 pfu AdCatalase or with the empty vector as control in 750 μl of media. Subsequently, 750 μl of additional media was added 4 h later and the cells were incubated for 72 h.

RTK Phosphorylation Assay—Human Phospho-Receptor Tyrosine Kinase phosphorylation was measured using Phospho-RTK Array kit (R & D Systems).

ELISA—Phosphorylated and total IGF-1 R were measured using a DuoSet IC ELISA kit from R&D Systems.

Determination of Mitochondrial Membrane Potential—Mitochondrial membrane potential was measured in HaCaT cells exposed to the LLEC or placebo using TMRM or JC-1 (MitoProbe JC-1 Assay Kit for Flow Cytometry, Life Technologies), per manufacturer's instructions for flow cytometry.

Integrin alpha V Expression—Human HaCaT cells were grown under the MCD or placebo and harvested 6 h after removing the IBIDI® insert. Staining was done using antibody against integrin aV (Abeam, Cambridge, Mass.).

Example 4 Generation of Superoxide

A LLEC system was tested to determine the effects on superoxide levels which can activate signal pathways. LLEC system increased cellular protein sulfhydryl levels. Further, the LLEC system increased cellular glucose uptake in human keratinocytes. Increased glucose uptake can result in greater mitochondrial activity and thus increased glucose utilization, providing more energy for cellular migration and proliferation. This can “prime” the wound healing process before a surgical incision is made and thus speed incision healing.

Example 5 Effect on Propionibacterium acnes

Bacterial Strains and Culture

The main bacterial strain used in this study is Propionibacterium acnes and multiple antibiotics-resistant P. acnes isolates are to be evaluated.

ATCC medium (7 Actinomyces broth) (BD) and/or ATCC medium (593 chopped meat medium) is used for culturing P. acnes under an anaerobic condition at 37° C. All experiments are performed under anaerobic conditions.

Culture

LNA (Leeming-Notman agar) medium is prepared and cultured at 34° C. for 14 days.

Planktonic Cells

P. acnes is a relatively slow-growing, typically aero-tolerant anaerobic, Gram-positive bacterium (rod). P. acnes is cultured under anaerobic condition to determine for efficacy of an embodiment disclosed herein (LLEC system). Overnight bacterial cultures are diluted with fresh culture medium supplemented with 0.1% sodium thioglycolate in PBS to 10⁵ colony forming units (CFUs). Next, the bacterial suspensions (0.5 mL of about 105) are applied directly on LLEC system (2″×2″) and control fabrics in Petri-dishes under anaerobic conditions. After 0 h and 24 h post treatments at 37° C., portions of the sample fabrics are placed into anaerobic diluents and vigorously shaken by vortexing for 2 min. The suspensions are diluted serially and plated onto anaerobic plates under an anaerobic condition. After 24 h incubation, the surviving colonies are counted. The LLEC limits bacterial proliferation.

Example 6 Reduction of Facial Wrinkles with Manual LLEC Adjustment

A 44 year old male seeks treatment for wrinkles around his eyes (crows' feet). The patient's face is imaged in 3 dimensions and from this data a mask with a multi-array matrix of biocompatible microcells is produced from a pliable material. Before going to sleep, the patient applies an electrically conductive moisturizer or Estee Lauder Advanced Night Repair as directed. The patient then puts on the mask so that the sensing element within substrate and multi-array matrix of biocompatible microcells contacts the cosmetic product which contacts his skin. The multi-array matrix of biocompatible electrodes produces a LLEC when it contacts the cosmetic product. The sensing element and control module can collect, transmit, and store data such as skin moisture within the mask. The data can be collected and stored throughout the entire night.

In the morning, patient would download or transmit stored data from the mask to an external device such as a mobile phone, compute, or tablet. As soon as data is collected by the external device it can be transmitted to patient's physician for evaluation. Physician can evaluate the data to determine the effectiveness of the treatment. Physician can then adjust LLEC system of the mask by a prescribing a new mask to aid in reducing facial wrinkles quickly. The patient repeats this each night. After 30 days of treatment the patient's crows' feet are visibly reduced.

Example 7 Reduction of Facial Wrinkles with Automatic LLEC Adjustment

A 44 year old male seeks treatment for wrinkles around his eyes (crows' feet). The patient's face is imaged in 3 dimensions and from this data a mask with a multi-array matrix of biocompatible microcells is produced from a pliable material. Before going to sleep, the patient applies an electrically conductive moisturizer or Estee Lauder Advanced Night Repair as directed. The patient then puts on the mask so that the sensing element within substrate and multi-array matrix of biocompatible microcells contacts the cosmetic product which contacts his skin. The multi-array matrix of biocompatible electrodes produces a LLEC when it contacts the cosmetic product. The sensing element and control module can collect, transmit, and store data such as skin moisture within the mask. The data can be collected and stored throughout the entire night.

Data can be periodically transmitted to an external device during the night to determine the treatment effectiveness against a database or an algorithm. External device can transmit a LLEC adjustment to treatment protocol back to the mask while being worn throughout the night. Physician can also evaluate the data periodically to determine the effectiveness of the treatment. Physician can then adjust LLEC system of the mask by a prescribing new LLEC parameters or algorithms in reducing facial wrinkles quickly. The patient repeats this each night. After 30 days of treatment the patient's crows' feet are visibly reduced.

Example 8 Tissue Treatment or Monitoring with LLEC

A 38 year old male seeks treatment for reoccurring angina. Before each day begins, the patient applies an electrically conductive liquid or electrolytic solution to his chest. The patient then puts on a patch that includes a multi-array matrix of biocompatible microcells. The multi-array matrix of biocompatible electrodes produces a LLEC when it contacts the conductive liquid or electrolytic solution. During the day the patch will collect, transmit, and store data similar to an EKG throughout the day. Patch can also collect data such as perspiration, blood pressure, or exertion during activity.

At the end of the day, patient would download or transmit stored data from the patch to an external device such as a mobile phone, compute, or tablet. As soon as data is collected by the external device it can be transmitted to patient's physician for evaluation. Physician can evaluate the data to determine a diagnosis or severity of reoccurring angina. The patient repeats this each day as prescribed.

In certain embodiments the patch can be worn in a hospital setting where patient can be monitored in real time. In this example data would be collected and transmitted by the patch to the hospital's monitoring devices. As data is collected by the monitoring devices it can be evaluated by the patient's physician to determine a diagnosis or severity of reoccurring angina.

In certain embodiments the patch can be worn in a hospital setting during tissue treatment such as with a burn patient. In this example, data would be collected and transmitted by the patch to the hospital's monitoring devices. As data is collected by the monitoring devices it can be evaluated by the patient's physician to determine whether the burn tissue treatment is effective.

In closing, it is to be understood that although aspects of the present specification are highlighted by referring to specific embodiments, one skilled in the art will readily appreciate that these disclosed embodiments are only illustrative of the principles of the subject matter disclosed herein. Therefore, it should be understood that the disclosed subject matter is in no way limited to a particular methodology, protocol, and/or reagent, etc., described herein. As such, various modifications or changes to or alternative configurations of the disclosed subject matter can be made in accordance with the teachings herein without departing from the spirit of the present specification. Lastly, the terminology used herein is for the purpose of describing particular embodiments only, and is not intended to limit the scope of the present disclosure, which is defined solely by the claims. Accordingly, embodiments of the present disclosure are not limited to those precisely as shown and described.

Certain embodiments are described herein, comprising the best mode known to the inventor for carrying out the methods and devices described herein. Of course, variations on these described embodiments will become apparent to those of ordinary skill in the art upon reading the foregoing description. Accordingly, this disclosure comprises all modifications and equivalents of the subject matter recited in the claims appended hereto as permitted by applicable law. Moreover, any combination of the above-described embodiments in all possible variations thereof is encompassed by the disclosure unless otherwise indicated herein or otherwise clearly contradicted by context.

Groupings of alternative embodiments, elements, or steps of the present disclosure are not to be construed as limitations. Each group member may be referred to and claimed individually or in any combination with other group members disclosed herein. It is anticipated that one or more members of a group may be comprised in, or deleted from, a group for reasons of convenience and/or patentability. When any such inclusion or deletion occurs, the specification is deemed to contain the group as modified thus fulfilling the written description of all Markush groups used in the appended claims.

Unless otherwise indicated, all numbers expressing a characteristic, item, quantity, parameter, property, term, and so forth used in the present specification and claims are to be understood as being modified in all instances by the term “about.” As used herein, the term “about” means that the characteristic, item, quantity, parameter, property, or term so qualified encompasses a range of plus or minus ten percent above and below the value of the stated characteristic, item, quantity, parameter, property, or term. Accordingly, unless indicated to the contrary, the numerical parameters set forth in the specification and attached claims are approximations that may vary. At the very least, and not as an attempt to limit the application of the doctrine of equivalents to the scope of the claims, each numerical indication should at least be construed in light of the number of reported significant digits and by applying ordinary rounding techniques. Notwithstanding that the numerical ranges and values setting forth the broad scope of the disclosure are approximations, the numerical ranges and values set forth in the specific examples are reported as precisely as possible. Any numerical range or value, however, inherently contains certain errors necessarily resulting from the standard deviation found in their respective testing measurements. Recitation of numerical ranges of values herein is merely intended to serve as a shorthand method of referring individually to each separate numerical value falling within the range. Unless otherwise indicated herein, each individual value of a numerical range is incorporated into the present specification as if it were individually recited herein.

The terms “a,” “an,” “the” and similar referents used in the context of describing the disclosure (especially in the context of the following claims) are to be construed to cover both the singular and the plural, unless otherwise indicated herein or clearly contradicted by context. All methods described herein can be performed in any suitable order unless otherwise indicated herein or otherwise clearly contradicted by context. The use of any and all examples, or exemplary language (e.g., “such as”) provided herein is intended merely to better illuminate the disclosure and does not pose a limitation on the scope otherwise claimed. No language in the present specification should be construed as indicating any non-claimed element essential to the practice of embodiments disclosed herein.

Specific embodiments disclosed herein may be further limited in the claims using consisting of or consisting essentially of language. When used in the claims, whether as filed or added per amendment, the transition term “consisting of” excludes any element, step, or ingredient not specified in the claims. The transition term “consisting essentially of” limits the scope of a claim to the specified materials or steps and those that do not materially affect the basic and novel characteristic(s). Embodiments of the present disclosure so claimed are inherently or expressly described and enabled herein. 

1. A device for collecting data, comprising: a substrate configured with one or more sensing elements; one or more biocompatible electrodes configured to generate at least one of a low level electric field (LLEF) or low level electric current (LLEC).
 2. The device of claim 1 wherein the biocompatible electrodes comprise a first array comprising a pattern of microcells formed from a first conductive material, and a second array comprising a pattern of microcells formed from a second conductive material.
 3. The device of claim 1 wherein one of the LLEF or LLEC are configured to provide a power source to the sensing element and control module.
 4. The device of claim 2 wherein the first conductive material and the second conductive material comprise the same material.
 5. The device of claim 2 wherein the first and second array each comprise a discrete circuit.
 6. The device of claim 5, further comprising a power source.
 7. The device of claim 2 wherein the first array and the second array spontaneously generate a LLEF.
 8. The device of claim 7 wherein the first array and the second array spontaneously generate a LLEC when contacted with an electrolytic solution or with a conductive fluid.
 9. The device of claim 7 wherein the LLEF is between 0.05 and 5 Volts.
 10. The device of claim 9 wherein the LLEF is between 0.1 and 5 Volts.
 11. The device of claim 9 wherein the LLEF is between 1.0 and 5 Volts.
 12. The device of claim 1 wherein the substrate comprises a pliable material.
 13. The device of claim 8 wherein the LLEC is between 1 and 200 micro-amperes.
 14. The device of claim 13 wherein the LLEC is between 1 and 100 micro-amperes.
 15. The device of claim 13 wherein the LLEC is between 100 and 200 micro-amperes.
 16. The device of claim 13 wherein the LLEC is between 150 and 200 micro-amperes.
 17. The device of claim 1 wherein the data element from the sensing element is a biological factor, a chemical factor, a physiological factor, or a combination thereof.
 18. The device of claim 1, wherein the data element collected from the one or more sensing elements is transmitted to an external device.
 19. The device of claim 1, wherein the data element collected from the one or more sensing elements is stored.
 20. A method for treating tissue, a method comprising: applying a treatment protocol comprising applying a low level electric field (LLEF) or low level electric current (LLEC) of between 1 and 200 micro-amperes to an area where tissue treatment is desired; sensing at least one data element in tissue wherein the data element is collected by a sensing element. 